Africa’s first Moon mission, Africa2Moon, is set to launch in 2029 as a payload on China’s Chang’e 8 lander. The South African-led project will deploy three 30-centimetre antennas to detect low-frequency radio waves that Earth’s atmosphere blocks from ground-based observatories.
The Africa2Moon Mission: A 2029 Lunar Milestone
The mission represents the continent’s first foray into deep space exploration. Dr Carla Mitchell, the mission director and Africa programme manager at the South African Radio Astronomy Observatory, has driven the project for more than 13 years. She described the effort as a passion project that began with designing instruments and years of advocacy. An open call from China for payloads on the Chang’e 8 mission provided the flight opportunity, and the Africa2Moon proposal was selected last year. The project has now entered its qualification phase, according to Mitchell.
The scientific target is the low-frequency radio spectrum, specifically signals below 30 megahertz. Earth’s ionosphere reflects these wavelengths, making them invisible to terrestrial telescopes. The lunar surface offers a quiet platform, particularly on the far side, which is shielded from human-made radio interference. By placing antennas on the Moon, the team aims to open a new observational window into the early universe and cosmic magnetic fields.
The BALLS Technology: Indigenous Design for Radio Astronomy
The mission’s hardware consists of three autonomous spheres, each 30 centimetres in diameter. They are dubbed the Bounced African Low Lunar Spheres, or BALLS. Each sphere functions as an independent antenna designed to detect low-frequency radio waves. Mitchell explained that the antennas are built to operate autonomously on the lunar surface, collecting data that is impossible to gather from Earth.
The design draws on South Africa’s deep heritage in radio astronomy, home to the MeerKAT array and the future Square Kilometre Array. Engineering for the lunar environment requires surviving extreme thermal cycles and radiation without active cooling systems typically found on larger spacecraft. The compact, spherical form factor addresses these constraints while minimising mass and volume on the lander.
The Cost-Saving Model: Volunteerism and Industrial Collaboration
The project’s most striking feature is its budget. A mission of this class typically costs over $100 million. The reduction stems from two pillars: volunteer labour and in-kind industrial support.
Over 30 scientists and engineers have volunteered their time across a decade to advance the design and planning. Mitchell characterised the early years as “begging and pleading” to keep the concept alive. Simultaneously, South African companies and universities have taken on the production of mission hardware at no cost. This model converts institutional overhead and commercial margins into contributed expertise, slashing the cash requirement by more than 99 percent compared to standard procurement.
The Role of SANSA and National Research Institutions
The South African National Space Agency (SANSA) is a key institutional partner. Established on 9 December 2010 by the National Space Agency Act, SANSA was formed to consolidate space-related research and serve as a regional centre for space science in Africa. Its mandate includes advancing scientific engineering through human capital development and supporting the industrial development of space technologies.
SANSA’s history traces back to the 1950s, when a tracking station at Hartebeesthoek supported NASA lunar and interplanetary missions, including receiving the first images of Mars from Mariner IV. The agency currently operates satellite ground segments and leads the South African Earth Observation Strategy. For Africa2Moon, SANSA provides the governmental framework and coordination that allowed the volunteer-driven project to interface with the Chinese space programme and secure the payload slot.
The South African Radio Astronomy Observatory (SARAO), where Mitchell serves as Africa programme manager, hosts the mission director role and contributes the radio astronomy expertise honed through MeerKAT operations. Universities across the country supply the engineering workforce and fabrication facilities for the flight hardware.
Redefining Space Exploration Through Collaborative Frameworks
Mitchell frames the mission as a demonstration of a new collaborative model for space exploration. By combining academic research capacity, industrial manufacturing capability, and volunteer specialist labour, the project bypasses the traditional cost drivers of aerospace programmes. The approach relies on existing national infrastructure — universities, research observatories, and a government space agency — rather than building new dedicated facilities.
The partnership with China’s Chang’e 8 programme provides the launch and landing segment, removing the need for a dedicated transfer vehicle and lander development. This rideshare model, combined with the domestic pro-bono production chain, creates a template that other emerging space nations could replicate. For communities across the region watching the project, it signals that participation in deep space science does not require superpower budgets, but rather coordinated use of existing human and industrial capital.
The Historical Roots of African Space Support
SANSA’s history traces back to the 1950s, when a tracking station at Hartebeesthoek supported NASA lunar and interplanetary missions. This legacy infrastructure is critical for current operations, as the agency currently operates satellite ground segments and leads the South African Earth Observation Strategy.
During the 1950s to 1970s, lunar and interplanetary missions conducted by NASA were supported from a tracking station at Hartebeesthoek where the first images of Mars were received from the Mariner IV spacecraft in the first successful flyby of the planet. Other South African facilities also assisted in tracking satellites to determine the effects of the upper atmosphere on their orbits.
In 1980s work on the development of a launcher and a satellite had been in progress but was discontinued after 1994. In 1999, South Africa launched its first satellite, SUNSAT from Vandenberg Air Force Base in the US. A second satellite, SumbandilaSat, was launched from the Baikonur Cosmodrome in Kazakhstan in 2009.
SANSA’s main focusses include using data obtained from remote sensing through satellites and other projects to provide assessment on flooding, fires, resource management and environmental phenomena in South Africa and the African continent. The agency was formed with the intent of consolidating space-related research, projects and research in South Africa and to assume the role as a regional centre for space research in Africa.
Sources
- Africa’s first Moon mission is South African-led, and local expertise slashed the cost
- South African National Space Agency
- Africa’s first Moon mission is South African-led, and local expertise slashed the cost
Photo: Photograph by Mike Peel (www.mikepeel.net). (CC BY-SA 4.0)
